Jan 8, 2018In convex optimization, the feasible region is convex if equality constraints h(x) are linear or affine, and inequality constraints g(x)≤0 are Why must equality constraints be affine in convex optimization?Help needed in understanding the constraints of convex Convex optimization: affine equality constraints into inequality Affine Functions as Equality Constraints in Convex Optimization More results from math.stackexchange.com
In convex optimization, the feasible region is convex if equality constraints h(x) are linear or affine, and inequality constraints g(x)≤0 are convex.
In convex optimization, the feasible region is convex if equality constraints h(x) are linear or affine, and inequality constraints g(x)≤0 are convex.
Because of the specific way you asked your question, I do consider the other answers provided to be incorrect. Given a set of equations and inequal...Best answer · 11
If the equality constraints are nonlinear the feasible region is not a convex set (even if the non-linear equality constraints are convex functions...4
You can see the equality constraint $h(x)=0$ as two inequality constraints, i.e., $h(x) \leq 0$ and $h(x) \geq 0$. If $h$ is not linear, then there...3
,Convex optimization with
linear equality constraints can also be solved using KKT matrix techniques if the objective function is a quadratic function (which generalizes to a variation of Newton's method, which works even if the point of initialization does not satisfy the constraints), but can also generally be solved by eliminating the equality constraints with linear algebra or solving the dual problem.
Condition of an optimization problem which the solution must satisfy
In mathematics, a constraint is a condition of an optimization problem that the solution must satisfy.
There are several types of constraints—primarily equality constraints, inequality constraints, and integer constraints.
The set of candidate solutions that satisfy all constraints is called the feasible set.
In artificial intelligence and operations research, constraint satisfaction is the process of finding a solution through
a set of constraints that impose conditions that the variables must satisfy.
A solution is therefore an assignment of values to the variables that satisfies all constraints—that is, a point in the feasible region.
Sequential minimal optimization (SMO) is an algorithm for solving the quadratic programming (QP) problem that arises during the training of support-vector machines (SVM).
It was invented by John Platt in 1998 at Microsoft Research.
SMO is widely used for training support vector machines and is implemented by the popular LIBSVM tool.
The publication of the SMO algorithm in 1998 has generated a lot of excitement in the SVM community, as previously available methods for SVM training were much more complex and required expensive third-party QP solvers.